Hazardous Location LED Lighting Global Market Forecast 2022-2032
Report Description
This is the ElectroniCast analysis and forecast of global market consumption of LED-based hazardous location luminaires (explosion-proof and other evaluation levels).
Unsafe lighting is one of the most common potential sources of ignition causing and explosion. Working environments that contain explosive gases or dust are extremely volatile environments. A variety of luminaires (light fixture + LED light source) are available that are considered suitable for hazardous locations, since they prevent any possible ignition sources from being exposed to the air. In various lighting applications, hazardous locations are defined as areas that are at risk of fire or explosion due to the combined presence of electrical equipment and flammable gases or vapors, flammable liquids, combustible dusts, ignitable fibers, or other substances.
In the process of this market research project, in addition to interviewing existing customers and potential customers of LED-based hazardous location lighting, we also studied lighting manufactures with various ranges of hazardous area lighting products. The luminaires are designed for locations where explosive gases and dusts are found, providing suitable lighting without enabling a risk of explosion.
The emergence of solid-state lighting (SSL) light emitting diodes (LEDs) in the general lighting industry continues to push lighting-industry vendors, as well as end-users, to consider innovative solutions (new products) to adopt hazardous location LED lighting solutions.
The light emitting diode (LED) market, despite exciting innovative devices driven by technological advances and ecological/energy-saving concerns, still face challenges in overcoming performance/price limitations and in attracting widespread consumption.
Cover image credit: Underwriters Laboratories of Canada (UL Canada)
LED Level Quantified in the ElectroniCast Study
Below, are five levels (or “food chain”) pertaining to the LED marketplace. For the purposes of this ElectroniCast study, we quantify and provide a market forecast for
Level 5.
- Level 1 - The bare chip or die
- Level 2 - The packaged LED chip
- Level 3 – LED array, optics, boards (PCB), heat sink, driver, other components
- Level 4 – Lamp/Light source
Level 5 – Luminaires (light fixture, initial lamp/light source, inclusive fittings/brackets)
Regions: The following regions are quantified in this study report:
- America (North, Central and South America)
- EMEA (Europe, Middle East and Africa)
- APAC (Asia Pacific)
10-Year Market Forecast
This report provides the market review and forecast (2022-2032) by the following functions:
- Consumption Value (US$)
- Quantity (number/units) – (Million)
- Average Selling Prices ($, each)
Market Forecast Product Categories
This market forecast of the worldwide consumption is presented for four (4) major luminaire-type categories, as shown below:
- Spot, Flood and General-Area
- Linear: Tube and String/Strip
- Small portable-type: Flash lights, wearable headlamp
- Specialty, Panel and Miscellaneous
Market Forecast Sub-Application Categories
This market forecast of the worldwide consumption for LED Luminaires used in explosive-proof lighting is presented for four (4) major end-user group (sub-application) categories, as shown below:
- Power Plants, Pumping Stations, Substations
- Military Bases, Airports, Other Transportation Facilities
- Gas (service) Stations, Paint-Spray Booths, Other Commercial/Industrial, Other/Non-Specific
- Oil Fields, Oil Refineries, Offshore Oil Platforms, Oil Tanks, Tunnels, Wharf, Mining and Other Similar
Market Research Methodology
Market analysis and technology forecasting are complex tasks. Any predictions of the shape and trends of technology and economic movement start from the notion that the germ of what will be important tomorrow is present, although smaller or larger or in a different form, in our environment today. However, taking as a basis for a prediction the assumptions of current, conventional belief create a set of preconceived notions that can lead to serious mistakes. ElectroniCast, instead, looks to the basic driving forces.
Information Base
This study is based on analysis of information obtained continually over the past several years, but updated through the beginning of April 2023. During this period, ElectroniCast analysts performed interviews with authoritative and representative individuals in the LED manufacturing (materials, integrated circuits/circuit boards, packaging, devices, connectors/pins/end-caps, plastic, aluminum and glass manufacturers, associated parts/pieces, fittings/fixtures) and military/aerospace, harsh environment concerns, painting (paint spray booths), oil/gas and mining, power generation/nuclear, industrial/manufacturing, mass transit authorities, transportation/ infrastructure, R&D, gas stations/service stations (lighting distributors), government, and other.
Market research interviews were conducted principally with:
- Engineers, marketing personnel and management at manufacturers of LEDs (chips, components, lamps and fixtures) as well as other technologies
- Design group leaders, engineers, marketing personnel and market planners at major users and potential users of LEDs
- Other industry experts, including those focused on standards activities, trade associations, and investments
The interviews covered issues of technology, R&D support, pricing, contract size, reliability, documentation, installation/maintenance crafts, standards, supplier competition and other topics. Customers and distributors were interviewed, to obtain their estimates of quantities received and average prices paid. Customer estimates of historical and expected near term future growth of their application are obtained. Their views of use of new technology products were obtained.
The analyst then considered customer expectations of near-term growth in their application, plus forecasted economic payback of investment, technology trends and changes in government regulations and funding/tax-break legislation/rules in each geographical region, to derive estimated growth rates of quantity and price of each product subset in each application. These forecasted growth rates are combined with the estimated baseline data to obtain the long-range forecasts at the lowest detailed level of each product and application.
A full review of published information (secondary research) was also performed to supplement information obtained through primary research (interviews). The following sources were reviewed:
- Professional technical journals and papers
- Trade press articles
- Technical conference proceedings
- Product literature
- Company profile and financial information
- Additional information based on previous ElectroniCast market studies
- Personal knowledge of the research team
In analyzing and forecasting the complexities of worldwide markets for light emitting diode products, it is essential that the market research team have a good and a deep understanding of the technology and of the industry. ElectroniCast consultants who participated in this report were qualified.
Bottom-up Methodology
ElectroniCast forecasts, as illustrated in the forecast data structure, are developed initially at the lowest detail level, then summed to successively higher levels. The background market research focuses on the amount of each type of product used in each application in the base year (last year: 2022), and the prices paid at the first transaction from the manufacturer. This forms the base year data.
ElectroniCast analysts then forecast the growth rates in component quantity use in each application, along with price trends, based on competitive, economic and technology forecast trends, and apply these to derive long term forecasts at the lowest application levels. The usage growth rate forecasts depend heavily on analysis of overall end user trends toward equipment usage and economic payback.
The calculation and analysis data spreadsheet technique are based upon input/output analysis, leveraging the quantitative consumption quantity, price and value of each item in each application at all levels to achieve reasonable quantitative conclusions. This interactive analysis concept, first applied on a major scale by Leonteff, of the US Department of Commerce, in the mid-1950s, was then adopted successfully by analyst/forecasting firms Quantum Science, Gnostic Concepts and (in 1981) by ElectroniCast.
Coronavirus Adjustment
June 2023 – The coronavirus pandemic produced human and economic challenges throughout the world. In some countries, all “non-essential” businesses were closed, employment was affected by quarantine of the public. Depending on political, economic, health and several other consideration factors, these restrictions still partially remained in 2022. Because of the impact on production, supply, decreases in sales, slowdowns in marketing, shipment and implementation (and other) caused by the negative effects of the coronavirus (COVID-19), we estimated a continued, but lesser, effect in consumption in 2022; however, driven by the immediate need to expand bandwidth in multiple applications, we are forecasting an increasingly steady recovery.
ElectroniCast’s methodology in determining the slowdown of the increase in consumption (use) of fiber optic connectors, begins with the volume (quantity) forecast before any considerations of the coronavirus impact. Then, we evaluated current manufacturing (not only connectors, but all relative components, products and services), inventory, distribution channels, shipping, logistics, sales/marketing channels, installation and maintenance, and user restrictions, with the emphasis on actual possibility of installations for both essential and non-essential or selective implementation of communication networks or other. Other considerations include: financial/economy in general, employment (staffing) of all levels, such as design, implementation, production, marketing/sales, management, OEM capability and product/service demand, distributors, sales agents, customers (at all levels), and many other concerns were considered. All of the volume (unit quantity) evaluations were followed by evaluation of average selling price assessment, based on all of the (same) volume methodology assessments.
About ElectroniCast
ElectroniCast, founded in 1981, specializes in forecasting technology and global market trends in optical communication components and devices, as well providing market data on light emitting diodes used in lighting.
As an independent consultancy we offer multi-client and custom market research studies to the worlds leading companies based on comprehensive, in- depth analysis of quantitative and qualitative factors. This includes technology forecasting, markets and applications forecasting, strategic planning, competitive analysis, customer-satisfaction surveys and marketing/sales consultation. ElectroniCast, founded as a technology-based independent consulting firm, meets the information needs of the investment community, industry planners and related suppliers.
Proprietary Statement
All data and other information contained in this data base are proprietary to ElectroniCast and may not be distributed or provided in either original or reproduced form to anyone outside the clients internal employee organization, without prior written permission of ElectroniCast.
ElectroniCast, in addition to multiple-client programs, conducts proprietary custom studies for single clients in all areas of management planning and interest. Other independent consultants, therefore, are considered directly competitive. ElectroniCast proprietary information may not be provided to such consultants without written permission from ElectroniCast Consultants.
One-Fee Policy
All employees of the client company/organization may use this report worldwide at the consultant service subscription fee shown above.
1. Executive Summary
1.1 Global Overview
1.2 Unpackaged and Packaged LEDs – Overview
1.3 LEDs – Technology Overview
1.4 Barriers to Growth in the US Military/Government Sector
2. LED-based Luminaires in Explosion Proof Lighting Market Forecast by Product Type
2.1 Overview
2.2 Spot, Flood and General-Area LED Luminaires
2.3 Linear Tube, String/Strip LED Luminaires
2.4 LED-based Flashlights and Wearable Headlamps (Luminaires)
2.5 LED-based Specialty, Panel and Miscellaneous Luminaires
3. LED-based Luminaires in Explosion Proof Lighting Market Forecast by Application
Oil Fields, Oil Refineries, Offshore Oil Platforms, Oil Tanks, Tunnels, Wharf, Mining and Other Similar
Power Plants, Pumping Stations, Substations
Military Bases, Airports, Other Transportation Facilities
Gas Stations, Paint-Spray Booths, Other Commercial/Industrial, Other/Non-Specific
4. Competition – Hazardous Location LED Lighting
4.1 Selected Key Companies – Profiles
ABB (Hazlux®)
Acuity Brands, Inc.
Aeon Lighting Technology Incorporated (ALT) - ALTLED®
Allison Park Group, Incorporated
Allsman Enterprises (AE Light)
Atex Global Ltd.
ATM Lighting sp. z o.o.
Avail Infrastructure Solutions (Rig-A-Lite)
BARTEC Top Holding GmbH
Cortem Group
DCD Technologies
Dialight plc
Eaton Corporation plc (Crouse-Hinds/Hazard-Gard®)
ECOM (Pepperl+Fuchs)
Emerson Electric Company (Appleton™)
Eneltec Group
Energy Focus
Federal Signal (Victor Products Ltd / Victor Group)
FoxFury LLC.
GE Current, a Daintree Company (Current Lighting Solutions, LLC)
Glamox AS (GLX Holding AS)
GeumVit Co., Ltd. (LumiDas)
Herberts Industrieglas GmbH & Co. KG (METAGLAS®)
Hubbell Incorporated (Chalmit®, Killark®)
IKIO LED Lighting
Jiangsu Ouhui Lighting Co., Ltd. (Ou Hui lighting)
K and H Industries
Larson Electronics
LDPI, Incorporated
Leoyo Holdings Group Company, Ltd.
Lind Equipment
L.J. Star Incorporated (LUMIGLAS®); F.H. Papenmeier GmbH & Co. KG
Maes Lighting
Nemalux Industrial Inc.
NJZ Lighting Technology Company, Ltd.
Nordland Lighting
Northern Light Technologies
Oceans King Lighting Science & Technology Company, Ltd (OKTECH)
Orga BV
Pelican
Phoenix Products Company Inc.
Qlight Electronics Company Ltd.
Raytec Ltd
R. Stahl AG
SA Equip
Sammode
Schuch (Adolf Schuch GmbH)
Shanghai Qinsun Electric Company, Limited (QINSUN)
Shanxi Guangyu LED Lighting Company Ltd. (GYLED)
Shenzhen CESP Co., Ltd - Chinese Energy South Power (CESP)
Shenzhen KHJ Semiconductor Lighting Co., Ltd. (KHJ)
Signify Lighting (Cooper Lighting Solutions) (Chloride)
Thorlux Lighting (FW Thorpe Plc)
Unimar, Inc.
Venas Company, Ltd
WAROM Mena (Warom Technology MENA FZCO)
Wenzhou Boshi Electric Technology Company (Boshi Electric)
Western Technology Incorporated
WISKA
Wolf Safety Lamp Company
Worksite Lighting LLC
Wrestt Group Company, Ltd
Zhejiang MA Safety Signal Company, Ltd. (MA Safety Signal)
Zhejiang Mingchuang Optoelectronic Technology Co., Ltd (MC-LED)
Zhejiang Tormin Electrical Company, Ltd. (TORMIN)
4.2 Competitor Market Share - Leaders - 2022
5. Market Research Methodology
6. Excel-based Market Forecast Data Base Explanation
6.1 Overview
6.2 Tutorial
List Of Tables
1.1.1 Selected Competitors: Hazardous Location Lighting
1.1.2 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region ($Million)
1.1.3 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Application ($Million)
1.1.4 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Product-Type ($Million)
1.1.5 ANSI/NFPA Areas Description
1.3.1 Selected Comparison: LED to Other Lighting Technologies
1.3.2 LED Color Variety – Selected Examples
1.3.3 LED Color Chart
2.1.1 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Product-Type ($Million)
2.1.2 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, Product-Type (Qty, Million)
2.1.3 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, Product-Type (ASP, $, each)
2.2.1 Spot, Flood, General-Area LED Luminaires in Hazardous Location Lighting Global Forecast, Region ($Million)
2.2.2 Spot, Flood, General-Area LED Luminaires in Hazardous Location Lighting Global Forecast, By Region (Qty)
2.2.3 Spot, Flood, General-Area LED Luminaires in Hazardous Location Lighting Global Forecast, By Region (ASP $)
2.3.1 Linear Tube LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, Region ($Million)
2.3.2 Linear Tube LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region (Qty)
2.3.3 Linear Tube LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region (ASP $)
2.3.4 Calculation of the Cost of Manufacturing Facility Downtime
2.3.5 Comparison of Lighting Technologies
2.4.1 Flashlight LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region ($Million)
2.4.2 Flashlight LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region (Quantity)
2.4.3 Flashlight LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region (ASP $)
2.5.1 Special/Panel LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, Region ($Million)
2.5.2 Special/Panel LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region (Qty)
2.5.3 Special/Panel LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Region (ASP $)
3.1 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Application ($Million)
3.2 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Application (Quantity)
3.3 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast, By Application (ASP $)
3.4 LED Luminaires in Hazardous Location Lighting America Consumption Forecast, By Application ($Million)
3.5 LED Luminaires in Hazardous Location Lighting America Consumption Forecast, By Application (Quantity)
3.6 LED Luminaires in Hazardous Location Lighting America Consumption Forecast, By Application (ASP $)
3.7 LED Luminaires in Hazardous Location Lighting EMEA Consumption Forecast, By Application ($Million)
3.8 LED Luminaires in Hazardous Location Lighting EMEA Consumption Forecast, By Application (Quantity)
3.9 LED Luminaires in Hazardous Location Lighting EMEA Consumption Forecast, By Application (ASP $)
3.10 LED Luminaires in Hazardous Location Lighting APAC Consumption Forecast, By Application ($Million)
3.11 LED Luminaires in Hazardous Location Lighting APAC Consumption Forecast, By Application (Quantity)
3.12 LED Luminaires in Hazardous Location Lighting APAC Consumption Forecast, By Application (ASP $)
4.2.1 LED-Based Luminaires Used in Hazardous Location Lighting Competitor Market Share Leaders – 2022
1.1.1 Product Life Cycle (PLC)
1.1.2 LED Luminaires in Hazardous Location Lighting Global Consumption Forecast ($Million)
1.1.3 Combustible Dust Accumulation
1.1.4 Explosion Triangle
1.1.5 Paint Booth Lighting and LED Luminaire
1.1.6 Explosion Proof LED Drop-Light/Trouble Light
1.1.7 Explosion Proof LED Signal/Warning Lights
1.1.8 Explosion Proof LED Lighting
1.1.9 LED Luminaire for Industrial and Hazardous Environments
1.1.10 Explosion Proof LED Linear Light
1.1.11 Explosion Proof LED Linear Light Fixture
1.1.12 Explosion Proof LED Linear Light Fixture
1.1.13 Explosion-Proof LED Mountable Area Light
1.1.14 Explosion Proof LED Portable Light
1.2.1 Diagram of a Typical LED Chip Structure Levels
1.2.2 Diagram of schematic structure of AlGaN-based UV LED Chip
1.2.3 LED Chip Cross-Sectional Structure
1.2.4 Chip On Glass (COG) Cross-Sectional Structure
1.2.5 Electrostatic discharge (ESD) - Integrated Protection Devices for LEDs
1.2.6 HB LED Electrostatic Discharge Example
1.2.7 Chip-on-Board LED Technology
1.2.8 Chip-Scale Package (CSP) LEDs
1.2.9 High Performance LED
1.2.10 Surface Mounted Device (SMD) LED
1.2.11 Chip-On-Board and Multi-Chip on Board (COB/MCOB) LED
1.2.12 Tunable Chip-On-Board LEDs with Highly Efficient Color Mixing
1.2.13 COB Packaged LEDs Provide Natural Light Spectrum
1.2.14 Highest Efficacy Chip-on-Board LEDs
1.2.15 Quad Chip LED Arrays
1.2.16 Single Chip LED Arrays
1.2.17 LED UVC Chip-On-Board
1.2.18 Resonant Cavity LED (RCLED) Technology
1.3.1 LED Chromatic Chart
1.3.2 Evolution of Research Emphasis during Technology Life Cycle
2.1.1 Hazardous Location Lighting (Class 1, Division 2) 300 Watts - 60 LEDS - Tripod Mount
2.2.1 General Service LED-based Lamp (A-Style Bulb Category)
2.2.2 Flame-Proof Explosion- Proof Luminaries
2.2.3 Low Profile General Area Lamp
2.2.4 LED Explosion Proof General-Area Light
2.2.5 LED Explosion Proof Gas Station Lights
2.3.1 LED-Based Linear Tube Lamp DIP Technology with Metal End-Caps (T8 Tube)
2.3.2 LED-Based Linear Tube Lamp SMD Technology with Metal End-Caps (T8 Tube)
2.3.3 LED-Based Linear Lamp Chip-on-Board (COB) Technology (Linear Lamp)
2.3.4 LED Linear Tubes in Explosion-Proof Fixtures
2.3.5 Portable Explosion Proof LED Linear Tube Lighting
2.3.6 TUBULAR LIGHT FITTING WITH LED SERIES
2.4.1 Performance Intrinsic Helmet Light
2.4.2 Explosion Proof LED Flashlight
2.4.3 Explosion Proof LED Flashlight
2.4.4 Cordless, Water-Proof, Explosion-Proof Miners Headlamp
2.4.5 LED Portable Explosion-Proof Light (Portable Work-Light)
2.4.6 Street With No Illumination
2.4.7 Street Illuminated with HID Flashlight
2.4.8 Chromaticity Limits for NVIS Colors NVIS White and NVIS Blue
2.4.9 NVIS Response Curves
2.4.10 NVIS Colors Allowed in a “Class A” Cockpit
2.4.11 NVIS Colors: Type I Class B
2.4.12 NVIS Green A Flip Filter Hood for Flashlight
2.5.1 Mine Explosion Proof Outdoor Light
2.5.2 LED Luminaire for Hazardous Areas
2.5.3 LED Luminaire for Mining and Heavy Industrial Applications
3.1 Spray-Paint Booths/Facilities
3.2 Nuclear power industry - Reactors operating in the United States
3.3 LED Lighting Fixture – Power Plant Installation
3.4 Explosion Proof LED Lighting for Oil Drilling Rigs, Oil, Gas Production Platforms
3.5 Explosion Proof LED Lighting in a Tunnel
3.6 18W 36W LED Explosion Proof Lamp
3.7 Explosion Proof Enclosure
3.8 Factory-sealed LED Luminaire
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